“DNA Origami” is an essential resource in the rapidly evolving field of DNAbased nanotechnology. This book dives into the intricate methods used to engineer DNA structures with precision, offering a comprehensive guide to understanding DNA origami’s impact on various domains. From fundamental principles to groundbreaking applications, this text is vital for professionals, students, and enthusiasts eager to explore the cuttingedge potential of DNA Walker.

Chapters Brief Overview:

1: DNA origami: Introduces the core concept of DNA origami, exploring the process of folding DNA molecules into desired shapes.

2: Spherical nucleic acid: Discusses the formation of spherical nucleic acid structures, enhancing our understanding of DNA’s versatility.

3: RNA origami: Explores how RNA can be utilized for origamilike structures, expanding on the potential of RNA in nanotechnology.

4: Nanoscale plasmonic motor: Focuses on the integration of plasmonic motors with DNA origami to create functional, molecularscale machines.

5: Biointerface: Examines how DNA origami interacts with biological systems, pushing forward bioengineering and medical applications.

6: Molecular selfassembly: Explains how DNA molecules can autonomously assemble into complex nanostructures with high precision.

7: Nanochemistry: Delves into the chemical processes that make DNAbased nanotechnology feasible and efficient.

8: Holliday junction: Investigates the role of Holliday junctions in DNA recombination, essential for manipulating DNA in origami.

9: Nanobiotechnology: Discusses the intersection of nanotechnology and biotechnology, showcasing the applications of DNA origami in medical fields.

10: Nanoruler: Highlights how DNA origami can be used as an ultraprecise molecular ruler for measurement at the nanoscale.

11: Nanorobotics: Explores the integration of DNA origami in the creation of molecular robots capable of performing tasks at the nanoscale.

12: Selfassembling peptide: Introduces the concept of peptide selfassembly, complementing DNA origami in the construction of nanostructures.

13: Nanomedicine: Focuses on the medical applications of DNA origami, particularly in drug delivery and disease diagnostics.

14: Intracellular delivery: Discusses how DNA origami can be used for targeted intracellular delivery of therapeutic agents.

15: Nadrian Seeman: Honors the contributions of Nadrian Seeman, a pioneer in DNA origami, and traces the development of the field.

16: Niveen Khashab: Highlights the work of Niveen Khashab in advancing the applications of DNA nanotechnology.

17: Nucleic acid design: Examines the principles of nucleic acid design for constructing robust and functional DNA origami structures.

18: Nanotechnology: Broadens the scope to encompass other nanotechnological innovations that complement DNAbased structures.

19: Peptide nucleic acid: Explores the role of peptide nucleic acids in enhancing the stability and functionality of DNA origami.

20: DNA nanotechnology: Concludes with a detailed overview of the entire DNA nanotechnology landscape, positioning DNA origami at its forefront.

21: TectoRNA: Focuses on TectoRNA, a cuttingedge RNA structure, as an extension of DNA origami principles, pushing the boundaries of molecular design.

“DNA Origami” is indispensable for anyone seeking to understand the integration of molecular biology with nanotechnology. Its applications in medicine, bioengineering, and beyond are bound to revolutionize future technological advancements. Whether you’re a professional, student, or hobbyist, this book is a gateway to the future of DNA Walker and molecular manipulation.

Genetics & Genomics